KEYSIGHT 키사이트 E4727B 어드밴스드 저주파 노이즈 분석기 – 굿맨시스템 (가격문의)
키사이트 KEYSIGHT E4727B 어드밴스드 저주파 노이즈 분석기
KEYSIGHT E4727B Advanced Low-Frequency Noise Analyzer
- Get a deeper, closer look at low frequency noise with the A-LFNA integrated with WaferPro Express, featuring data analysis, wafer prober control and test suite automation.



문의 010 7574 9841
평일 오전9시 ~ 오후6시 입니다. (공휴일은 통화불가합니다)
부재중일시 전화나 카톡 남겨주시면 업무시간때 체크후 피드백 드리겠습니다.
키사이트 ・ KEYSIGHT
E4727B
어드밴스드 저주파 노이즈 분석기
E4727B Advanced Low-Frequency Noise Analyzer
KEYSIGHT 키사이트 E4727B 어드밴스드 저주파 노이즈 분석기

Highlights
- Advanced low-frequency noise analyzer’s integration with PathWave WaferPro (WaferPro Express) enables turnkey noise measurements as well as measurement of DC characteristics, capacitance and RF S-parameters
- Extremely low device noise measurement such as transistor linear region noise by newly designed LNA
- State of the art new LNA also allows noise measurement in very low bias current
- High power device noise measurement even in the high current like 1A
- Improve measurement productivities by fast measurement speed even in the high accurate condition with number of averaging
- Software module measures DC characteristics, 1/f noise, random telegraph noise and conducts data analysis
- Keysight’s close collaboration with FormFactor enables a complete integrated on-wafer solution with automated control of all major wafer probing systems
The E4727B Advanced Low-Frequency Noise Analyzer enables fast, accurate and repeatable low-frequency noise (LFN) measurements on numerous device types. Now, thanks to tight integration with PathWave WaferPro (WaferPro Express) software, device modeling and characterization engineers can now add noise measurements to a larger suite that includes high-speed DC, capacitance and RF S-parameter measurements, all the while automating wafer prober control.

Figure 1: The new E4727B Advanced Low-Frequency Noise Analyzer (A-LFNA).
Applications
The applications are numerous; however, a few important ones are listed as follows.
- Process design kit (PDK) development - Semiconductor device foundries enable fabless design centers to design components such as transceivers for mobile phones, frequency synthesizers, analog-to-digital converters and much more. To make this possible, the foundries must provide PDK’s with simulation models of the primitive devices. The simulation models must include noise effects on transistors (BJT, CMOS, etc.) and resistors. The noise models must be across all possible bias currents, temperatures and device geometries.
- Manufacturing statistical process control and reliability - As an example, manufacturers of GaN devices may use noise measurements across their wafers as an early indicator of device reliability. Those devices that exhibit more noise are likely to fail sooner. Now we have a nondestructive way of assessing reliability, quite in contrast with standard accelerated life testing. Furthermore, for circuit applications where noise is a critical parameter, wafer level measurements may be used to track the evolution of noise performance across days, weeks and months of manufacturing.
- IC noise specification - Integrated circuit manufacturers of operational amplifiers and linear voltage regulators often need to characterize input referred voltage noise as a critical specification in their datasheets; one wafer may contain >10 thousand such circuits. To efficiently measure and map circuit performance across the wafer (and even across lots of wafers), the probe and signal conditioning circuitry must be placed close to the device under test to improve grounding and minimize external noise influences.
Turnkey Measurements
The A-LFNA’s built-in measurement routines make DC and noise measurements turnkey. For example, to measure noise on an N-Type MOSFET, the system automatically chooses the source and load impedances that will best expose the intrinsic device noise. The engineer can accept these recommended settings or make changes, and a noise measurement is initiated. The A-LFNA then measures noise power spectral density (1/f noise) and noise in the time domain (RTN). Resulting data is plotted using a multiplot data display window. Various windows' tabs help facilitate common tasks such as evaluating device DC operating point and measuring the slope of the power spectral density curve. Noise data can also be analyzed and represented in device models using device modeling tools such as PathWave Model Builder (MBP) and PathWave Device Modeling (IC-CAP). Circuit designers can use these device models to ensure highly accurate RF and analog low-noise circuit design.
Automated RTN Solution Using W7801B and B1500A
W7801B (PathWave WaferPro Express WGFMU Measurement bundle) efficiently performs at a low cost an automated RTN measurement on the wafer using the B1500A Semiconductor Device Analyzer with the B1530A Waveform Generator/Fast Measurement Unit (WGFMU). It can improve the efficiency of RTN measurement and data analysis including wafer prober control.
Key features
- Automated measurement without programing
- Auto prober control
- Wafer mapping
- Single data display for multi decade in frequency domain
- Upgradeable from your existing B1500A
RTN and 1/f Noise Measurement System Comparison

Measurement Examples

Figure 2. Example of WGFMU measurement.


















E4727B E4727B KEYSIGHT KEYSIGHT E4727B E4727B 키사이트 키사이트 E4727B
■ 제품 사양 (Specifications)
KEYSIGHT 제품 데이터시트의 핵심 사양입니다.
- W7801B WGFMU Measurement
- sensitivity (-185 dBV2/Hz) to characterize devices at high voltages (to 200 V) and down to ultra-low
- Figure 2. Equivalent circuit for Noise measurement
- Flicker(1/f) noise measurement
- • Analysis frequency range from 30 mHz to 100 MHz
- • Measures noise down to 30 pA bias current (Typ.)
- • Current/voltage/power range of up to 0.1 A / 200 V / 10 W, respectively
- • Available > 0.1 A current by external DC Power Supply
- Figure 5. 1E-28 A2/Hz noise current density example of 1/f Noise measurement
- Figure 6. 30 pA bias current example of 1/f Noise measurement
- • Up to 16 million points sampling size
- Over 0.1A bias noise measurement
- • 0.1 A bias current using external DC Power Supply
- Figure 9. Diagram of ˃ 0.1 A measurement
- Figure 10. Example of up to 1 A measurement
- Maximum analog bandwidth 30 mHz – 100 MHz
- Sampling frequency Maximum 500 MHz
- Sampling interval 1 10 ns Analog BW spec
- Maximum bias in DC measurement M9601A
- Minimum bias current 30 pA (Typ.)
- 1/f noise measurement accuracy ± 1.5 dB
- 1/f noise measurement repeatability ± 2.0 dB
- Operating frequency 30 mHz – 1 MHz 1 Hz – 1 MHz 1 Hz – 100 MHz
- Voltage gain 59 dB @ 10 kHz 59 dB @10 kHz 47 dB @ 1 MHz
- Input-referred noise voltage 1
- Input-referred noise current 100 fA//√Hz @10 kHz 100 fA//√Hz @10 kHz 100 fA//√Hz @10 kHz
- Coroner frequency 15 Hz 100 Hz 200 Hz
- Output impedance 220 Ω 220 Ω 220 Ω
- Cut-off frequency 0.03 Hz 0.4 Hz
- Series resistance 3.8 kΩ 294 Ω
본 사양은 제조사 공식 데이터시트의 핵심 항목을 정리한 것입니다. 전체 원문은 Lab 게시판 데이터시트를 참고하시고, 정확한 견적·재고는 굿맨시스템으로 문의 바랍니다.
📄 기술자료 다운로드

문의 010 7574 9841
평일 오전9시 ~ 오후6시 입니다. (공휴일은 통화불가합니다)
부재중일시 전화나 카톡 남겨주시면 업무시간때 체크후 피드백 드리겠습니다.
키사이트 ・ KEYSIGHT
E4727B
어드밴스드 저주파 노이즈 분석기
E4727B Advanced Low-Frequency Noise Analyzer
KEYSIGHT 키사이트 E4727B 어드밴스드 저주파 노이즈 분석기

Highlights
- Advanced low-frequency noise analyzer’s integration with PathWave WaferPro (WaferPro Express) enables turnkey noise measurements as well as measurement of DC characteristics, capacitance and RF S-parameters
- Extremely low device noise measurement such as transistor linear region noise by newly designed LNA
- State of the art new LNA also allows noise measurement in very low bias current
- High power device noise measurement even in the high current like 1A
- Improve measurement productivities by fast measurement speed even in the high accurate condition with number of averaging
- Software module measures DC characteristics, 1/f noise, random telegraph noise and conducts data analysis
- Keysight’s close collaboration with FormFactor enables a complete integrated on-wafer solution with automated control of all major wafer probing systems
The E4727B Advanced Low-Frequency Noise Analyzer enables fast, accurate and repeatable low-frequency noise (LFN) measurements on numerous device types. Now, thanks to tight integration with PathWave WaferPro (WaferPro Express) software, device modeling and characterization engineers can now add noise measurements to a larger suite that includes high-speed DC, capacitance and RF S-parameter measurements, all the while automating wafer prober control.

Figure 1: The new E4727B Advanced Low-Frequency Noise Analyzer (A-LFNA).
Applications
The applications are numerous; however, a few important ones are listed as follows.
- Process design kit (PDK) development - Semiconductor device foundries enable fabless design centers to design components such as transceivers for mobile phones, frequency synthesizers, analog-to-digital converters and much more. To make this possible, the foundries must provide PDK’s with simulation models of the primitive devices. The simulation models must include noise effects on transistors (BJT, CMOS, etc.) and resistors. The noise models must be across all possible bias currents, temperatures and device geometries.
- Manufacturing statistical process control and reliability - As an example, manufacturers of GaN devices may use noise measurements across their wafers as an early indicator of device reliability. Those devices that exhibit more noise are likely to fail sooner. Now we have a nondestructive way of assessing reliability, quite in contrast with standard accelerated life testing. Furthermore, for circuit applications where noise is a critical parameter, wafer level measurements may be used to track the evolution of noise performance across days, weeks and months of manufacturing.
- IC noise specification - Integrated circuit manufacturers of operational amplifiers and linear voltage regulators often need to characterize input referred voltage noise as a critical specification in their datasheets; one wafer may contain >10 thousand such circuits. To efficiently measure and map circuit performance across the wafer (and even across lots of wafers), the probe and signal conditioning circuitry must be placed close to the device under test to improve grounding and minimize external noise influences.
Turnkey Measurements
The A-LFNA’s built-in measurement routines make DC and noise measurements turnkey. For example, to measure noise on an N-Type MOSFET, the system automatically chooses the source and load impedances that will best expose the intrinsic device noise. The engineer can accept these recommended settings or make changes, and a noise measurement is initiated. The A-LFNA then measures noise power spectral density (1/f noise) and noise in the time domain (RTN). Resulting data is plotted using a multiplot data display window. Various windows' tabs help facilitate common tasks such as evaluating device DC operating point and measuring the slope of the power spectral density curve. Noise data can also be analyzed and represented in device models using device modeling tools such as PathWave Model Builder (MBP) and PathWave Device Modeling (IC-CAP). Circuit designers can use these device models to ensure highly accurate RF and analog low-noise circuit design.
Automated RTN Solution Using W7801B and B1500A
W7801B (PathWave WaferPro Express WGFMU Measurement bundle) efficiently performs at a low cost an automated RTN measurement on the wafer using the B1500A Semiconductor Device Analyzer with the B1530A Waveform Generator/Fast Measurement Unit (WGFMU). It can improve the efficiency of RTN measurement and data analysis including wafer prober control.
Key features
- Automated measurement without programing
- Auto prober control
- Wafer mapping
- Single data display for multi decade in frequency domain
- Upgradeable from your existing B1500A
RTN and 1/f Noise Measurement System Comparison

Measurement Examples

Figure 2. Example of WGFMU measurement.


















E4727B E4727B KEYSIGHT KEYSIGHT E4727B E4727B 키사이트 키사이트 E4727B
■ 제품 사양 (Specifications)
KEYSIGHT 제품 데이터시트의 핵심 사양입니다.
- W7801B WGFMU Measurement
- sensitivity (-185 dBV2/Hz) to characterize devices at high voltages (to 200 V) and down to ultra-low
- Figure 2. Equivalent circuit for Noise measurement
- Flicker(1/f) noise measurement
- • Analysis frequency range from 30 mHz to 100 MHz
- • Measures noise down to 30 pA bias current (Typ.)
- • Current/voltage/power range of up to 0.1 A / 200 V / 10 W, respectively
- • Available > 0.1 A current by external DC Power Supply
- Figure 5. 1E-28 A2/Hz noise current density example of 1/f Noise measurement
- Figure 6. 30 pA bias current example of 1/f Noise measurement
- • Up to 16 million points sampling size
- Over 0.1A bias noise measurement
- • 0.1 A bias current using external DC Power Supply
- Figure 9. Diagram of ˃ 0.1 A measurement
- Figure 10. Example of up to 1 A measurement
- Maximum analog bandwidth 30 mHz – 100 MHz
- Sampling frequency Maximum 500 MHz
- Sampling interval 1 10 ns Analog BW spec
- Maximum bias in DC measurement M9601A
- Minimum bias current 30 pA (Typ.)
- 1/f noise measurement accuracy ± 1.5 dB
- 1/f noise measurement repeatability ± 2.0 dB
- Operating frequency 30 mHz – 1 MHz 1 Hz – 1 MHz 1 Hz – 100 MHz
- Voltage gain 59 dB @ 10 kHz 59 dB @10 kHz 47 dB @ 1 MHz
- Input-referred noise voltage 1
- Input-referred noise current 100 fA//√Hz @10 kHz 100 fA//√Hz @10 kHz 100 fA//√Hz @10 kHz
- Coroner frequency 15 Hz 100 Hz 200 Hz
- Output impedance 220 Ω 220 Ω 220 Ω
- Cut-off frequency 0.03 Hz 0.4 Hz
- Series resistance 3.8 kΩ 294 Ω
본 사양은 제조사 공식 데이터시트의 핵심 항목을 정리한 것입니다. 전체 원문은 Lab 게시판 데이터시트를 참고하시고, 정확한 견적·재고는 굿맨시스템으로 문의 바랍니다.
📄 기술자료 다운로드
[ GOODMAN SYSTEM ]
010 7574 9841
평일 AM 9:00 ~ PM 6:00 (공휴일제외)
상호 : 굿맨시스템
대표 : 류철환
사업자등록번호 : 827-67-00543
주소 : 서울특별시 마포구 성미산로1길 61, 1동 1층 101호 (성산동, 용하빌딩)
연락처 : 070 8800 8282
이메일 : [email protected]
입금계좌 : 우리은행 1005 104 525723 류철환(굿맨시스템)
통신판매업신고번호 : 2023-서울마포-2080



